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<title>College of Arts and Sciences</title>
<link>http://dcommon.bu.edu:80/xmlui/handle/2144/905</link>
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<rdf:li resource="http://dcommon.bu.edu:80/xmlui/handle/2144/1221"/>
<rdf:li resource="http://dcommon.bu.edu:80/xmlui/handle/2144/1008"/>
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<item rdf:about="http://dcommon.bu.edu:80/xmlui/handle/2144/1222">
<title>Book Review: Unequal Partnerships: Beyond the Rhetoric of Philanthropic Collaboration. By Ira Silver</title>
<link>http://dcommon.bu.edu:80/xmlui/handle/2144/1222</link>
<description>Book Review: Unequal Partnerships: Beyond the Rhetoric of Philanthropic Collaboration. By Ira Silver

Barman, Emily

</description>
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<item rdf:about="http://dcommon.bu.edu:80/xmlui/handle/2144/1221">
<title>An Institutional Approach to Donor Control: From Dyadic Ties to a Field‐Level Analysis</title>
<link>http://dcommon.bu.edu:80/xmlui/handle/2144/1221</link>
<description>An Institutional Approach to Donor Control: From Dyadic Ties to a Field‐Level Analysis

Barman, Emily

Literature on the nonprofit sector focuses on charities and their interactions with clients or governmental agencies; donors are studied less often. Studies on philanthropy do examine donors but tend to focus on microlevel factors to explain their behavior. This study, in contrast, draws on institutional theory to show that macrolevel factors affect donor behavior. It also extends the institutional framework by examining the field‐level configurations in which donors and fundraisers are embedded. Employing the case of workplace charity, this new model highlights how the composition of the organizational field structures fundraisers and donors alike, shaping fundraisers’ strategies of solicitation and, therefore, the extent of donor control.

</description>
</item>
<item rdf:about="http://dcommon.bu.edu:80/xmlui/handle/2144/1008">
<title>Integration of relational and hierarchical network information for protein
        function prediction</title>
<link>http://dcommon.bu.edu:80/xmlui/handle/2144/1008</link>
<description>Integration of relational and hierarchical network information for protein
        function prediction

Jiang, Xiaoyu

Nariai, Naoki

Steffen, Martin

Kasif, Simon

Kolaczyk, Eric

BACKGROUND:In the current climate of high-throughput computational
        biology, the inference of a protein's function from related measurements, such as
        protein-protein interaction relations, has become a canonical task. Most existing
        technologies pursue this task as a classification problem, on a term-by-term basis, for each
        term in a database, such as the Gene Ontology (GO) database, a popular rigorous vocabulary
        for biological functions. However, ontology structures are essentially hierarchies, with
        certain top to bottom annotation rules which protein function predictions should in
        principle follow. Currently, the most common approach to imposing these hierarchical
        constraints on network-based classifiers is through the use of transitive closure to
        predictions.RESULTS:We propose a probabilistic framework to integrate information in
        relational data, in the form of a protein-protein interaction network, and a hierarchically
        structured database of terms, in the form of the GO database, for the purpose of protein
        function prediction. At the heart of our framework is a factorization of local neighborhood
        information in the protein-protein interaction network across successive ancestral terms in
        the GO hierarchy. We introduce a classifier within this framework, with computationally
        efficient implementation, that produces GO-term predictions that naturally obey a
        hierarchical 'true-path' consistency from root to leaves, without the need for further
        post-processing.CONCLUSION:A cross-validation study, using data from the yeast Saccharomyces
        cerevisiae, shows our method offers substantial improvements over both standard
        'guilt-by-association' (i.e., Nearest-Neighbor) and more refined Markov random field
        methods, whether in their original form or when post-processed to artificially impose
        'true-path' consistency. Further analysis of the results indicates that these improvements
        are associated with increased predictive capabilities (i.e., increased positive predictive
        value), and that this increase is consistent uniformly with GO-term depth. Additional in
        silico validation on a collection of new annotations recently added to GO confirms the
        advantages suggested by the cross-validation study. Taken as a whole, our results show that
        a hierarchical approach to network-based protein function prediction, that exploits the
        ontological structure of protein annotation databases in a principled manner, can offer
        substantial advantages over the successive application of 'flat' network-based
        methods.

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<item rdf:about="http://dcommon.bu.edu:80/xmlui/handle/2144/1007">
<title>Framingham Heart Study 100K project: genome-wide associations for
        cardiovascular disease outcomes</title>
<link>http://dcommon.bu.edu:80/xmlui/handle/2144/1007</link>
<description>Framingham Heart Study 100K project: genome-wide associations for
        cardiovascular disease outcomes

Larson, Martin

Atwood, Larry

Benjamin, Emelia

Cupples, L Adrienne

D'Agostino, Ralph

Fox, Caroline

Govindaraju, Diddahally

Guo, Chao-Yu

Heard-Costa, Nancy

Hwang, Shih-Jen

et al.

BACKGROUND:Cardiovascular disease (CVD) and its most common
        manifestations - including coronary heart disease (CHD), stroke, heart failure (HF), and
        atrial fibrillation (AF) - are major causes of morbidity and mortality. In many
        industrialized countries, cardiovascular disease (CVD) claims more lives each year than any
        other disease. Heart disease and stroke are the first and third leading causes of death in
        the United States. Prior investigations have reported several single gene variants
        associated with CHD, stroke, HF, and AF. We report a community-based genome-wide association
        study of major CVD outcomes.METHODS:In 1345 Framingham Heart Study participants from the
        largest 310 pedigrees (54% women, mean age 33 years at entry), we analyzed associations of
        70,987 qualifying SNPs (Affymetrix 100K GeneChip) to four major CVD outcomes: major
        atherosclerotic CVD (n = 142; myocardial infarction, stroke, CHD death), major CHD (n = 118;
        myocardial infarction, CHD death), AF (n = 151), and HF (n = 73). Participants free of the
        condition at entry were included in proportional hazards models. We analyzed model-based
        deviance residuals using generalized estimating equations to test associations between SNP
        genotypes and traits in additive genetic models restricted to autosomal SNPs with minor
        allele frequency [greater than or equal to]0.10, genotype call rate [greater than or equal
        to]0.80, and Hardy-Weinberg equilibrium p-value [greater than or equal to] 0.001.RESULTS:Six
        associations yielded p &lt;10-5. The lowest p-values for each CVD trait were as follows:
        major CVD, rs499818, p = 6.6 x 10-6; major CHD, rs2549513, p = 9.7 x 10-6; AF, rs958546, p =
        4.8 x 10-6; HF: rs740363, p = 8.8 x 10-6. Of note, we found associations of a 13 Kb region
        on chromosome 9p21 with major CVD (p 1.7 - 1.9 x 10-5) and major CHD (p 2.5 - 3.5 x 10-4)
        that confirm associations with CHD in two recently reported genome-wide association studies.
        Also, rs10501920 in CNTN5 was associated with AF (p = 9.4 x 10-6) and HF (p = 1.2 x 10-4).
        Complete results for these phenotypes can be found at the dbgap website
        http://www.ncbi.nlm.nih.gov/projects/gap/cgi-bin/study.cgi?id=phs000007.CONCLUSION:No
        association attained genome-wide significance, but several intriguing findings emerged.
        Notably, we replicated associations of chromosome 9p21 with major CVD. Additional studies
        are needed to validate these results. Finding genetic variants associated with CVD may point
        to novel disease pathways and identify potential targeted preventive therapies.

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